The presence of Good’s buffers caused rapid ZVI corrosion and a dramatic release of Fe(II) leading to the Fe(II)-catalyzed transformation of ferrihydrite to lepidocrocite and/or the direct formation of lepidocrocite from the oxidation of Fe(II) in the pH range 4.0–6.2. In comparison, in the absence of Good’s buffers, elution of Fe(II) was insignificant with ferrihydrite being the only Fe(III) oxyhydroxide detected following the oxidative transformation of ZVI. The rapid ZVI corrosion in the presence of Good’s buffer is possibly due to either (i) disruption of the Fe oxide surface layer as a result of attack by Good’s buffers and/or (ii) interaction of Good’s buffer with the outer Fe oxide surface and surface-associated Fe(II)/Fe(III)...
International audienceWhile most published studies used buffers to maintain the pH, there is limited...
The interaction between S(-II) and ferric oxides exerts a major control for the sulphur and iron cyc...
International audienceThe vulnerability of Zero-Valent Iron (ZVI) to passivation, which significantl...
While it has been recognized for some time that addition of nanoparticlate zerovalent iron (nZVI) to...
Aqueous ferrous iron (Fe(II)) accelerates the transformation of ferrihydrite into secondary, more c...
Designing water treatment systems with contaminant removal based on zero-valent iron (ZVI) requires ...
<div><p>Designing water treatment systems with contaminant removal based on zero-valent iron (ZVI) r...
Interaction with aqueous Fe(II) accelerates the transformation of the Fe(III) oxyhydroxide ferrihydr...
In aqueous solution, zero-valent iron (ZVI, Fe0) is known to activate oxygen (O2) into reactive oxid...
International audienceMilled zerovalent iron (milled ZVI) particles have been recognized as a promis...
This study investigated the impacts of buffer ions, natural organic matter (NOM), and particulate Fe...
A central aspect of the contaminant removal by elemental iron materials (Fe0 or Fe0 materials) is th...
Although oxidation/passivation of iron in basic solution has been extensively investigated, there is...
International audienceDespite the extensive use of nanoscale zerovalent iron (NZVI) in water and soi...
Dissolution of Fe(III) (hydr)oxide minerals by siderophores (i.e., Fe-specific, biogenic ligands) ...
International audienceWhile most published studies used buffers to maintain the pH, there is limited...
The interaction between S(-II) and ferric oxides exerts a major control for the sulphur and iron cyc...
International audienceThe vulnerability of Zero-Valent Iron (ZVI) to passivation, which significantl...
While it has been recognized for some time that addition of nanoparticlate zerovalent iron (nZVI) to...
Aqueous ferrous iron (Fe(II)) accelerates the transformation of ferrihydrite into secondary, more c...
Designing water treatment systems with contaminant removal based on zero-valent iron (ZVI) requires ...
<div><p>Designing water treatment systems with contaminant removal based on zero-valent iron (ZVI) r...
Interaction with aqueous Fe(II) accelerates the transformation of the Fe(III) oxyhydroxide ferrihydr...
In aqueous solution, zero-valent iron (ZVI, Fe0) is known to activate oxygen (O2) into reactive oxid...
International audienceMilled zerovalent iron (milled ZVI) particles have been recognized as a promis...
This study investigated the impacts of buffer ions, natural organic matter (NOM), and particulate Fe...
A central aspect of the contaminant removal by elemental iron materials (Fe0 or Fe0 materials) is th...
Although oxidation/passivation of iron in basic solution has been extensively investigated, there is...
International audienceDespite the extensive use of nanoscale zerovalent iron (NZVI) in water and soi...
Dissolution of Fe(III) (hydr)oxide minerals by siderophores (i.e., Fe-specific, biogenic ligands) ...
International audienceWhile most published studies used buffers to maintain the pH, there is limited...
The interaction between S(-II) and ferric oxides exerts a major control for the sulphur and iron cyc...
International audienceThe vulnerability of Zero-Valent Iron (ZVI) to passivation, which significantl...